Constructing a parallel aligned shish kebab structure of HDPE/BN composites: Toward improved two-way thermal conductivity and tensile strength

Inspired by the clam-shell structure of pearls, we fabricated thermally conductive high-density polyethylene (HDPE) reinforced by a 2D filler, boron nitride (BN). SEM images showed only lamellae randomly distributed in unshared HDPE samples, whereas a shish-kebab structure was introduced by utilizing an in-house designed rotational shear system. XRD results indicate the BN (002) plane is parallel to the sheared direction. Due to the interconnected shish-kebab structure and aligned BN (002) plane, the Vicat softening temperature was increased from 82.8 °C to 107.9 °C, demonstrating excellent heat resistance under high temperatures. An optimal thermal conductivity of 1.26 W/mK was found at 35 vol% BN loading with a tensile strength of 40 MPa. This work has utilized external force to manufacture HDPE/BN composites with effective thermal dissipation and higher service temperature. The excellent thermo-mechanical properties mean a longer service time and less replaced frequency of material under extreme operating conditions.

Files

Metadata

Work Title Constructing a parallel aligned shish kebab structure of HDPE/BN composites: Toward improved two-way thermal conductivity and tensile strength
Access
Open Access
Creators
  1. Bin Chen
  2. Jiawei Gong
  3. Wei Huang
  4. Ning Gao
  5. Cong Deng
  6. Xueqin Gao
Keyword
  1. Thermal Conductivity
  2. Boron Nitride
  3. Ultimate Tensile Strength
  4. Composite Material
  5. High Density Polyethylenes
  6. High Density Polyethylene
  7. Tensile Strength
  8. Thermal Tensile
  9. Density Polyethylene
  10. Nitride
  11. Polyethylene
  12. Parallel Alignment
  13. Density
  14. Heat Resistance
  15. Thermal Dissipation
  16. Service Time
  17. Randomly Distributed
  18. Lamellae
  19. High Temperature
  20. Reinforced
  21. Vol%
  22. Pearl
  23. Thermomechanical Properties
  24. External Force
  25. Clamshell
  26. Shell Structures
  27. Sem Images
  28. Service Temperature
  29. Thermally Conductive
  30. Softening Temperature
  31. Conductive
  32. Rotational
  33. Shells (Structures)
  34. X Ray Diffraction
  35. Scanning Electron Microscopy
  36. Thermomechanical Property
License In Copyright (Rights Reserved)
Work Type Article
Publisher
  1. Composites Part B: Engineering
Publication Date June 15, 2023
Publisher Identifier (DOI)
  1. https://doi.org/10.1016/j.compositesb.2023.110699
Deposited November 18, 2024

Versions

Analytics

Collections

This resource is currently not in any collection.

Work History

Version 1
published

  • Created
  • Added 1-s2.0-S0266353810000035-main.pdf
  • Added Creator Bin Chen
  • Added Creator Jiawei Gong
  • Added Creator Wei Huang
  • Added Creator Ning Gao
  • Added Creator Cong Deng
  • Added Creator Xueqin Gao
  • Published
  • Updated

Version 2
published

  • Created
  • Deleted Creator Bin Chen
  • Deleted Creator Jiawei Gong
  • Deleted Creator Wei Huang
  • Deleted Creator Ning Gao
  • Deleted Creator Cong Deng
  • Deleted Creator Xueqin Gao
  • Added Creator Bin Chen
  • Added Creator Jiawei Gong
  • Added Creator Wei Huang
  • Added Creator Ning Gao
  • Added Creator Cong Deng
  • Added Creator Xueqin Gao
  • Updated Keyword, Description, Related URLs Show Changes
    Keyword
    • Thermal Conductivity, Boron Nitride, Ultimate Tensile Strength, Composite Material, High Density Polyethylenes, High Density Polyethylene, Tensile Strength, Thermal Tensile, Density Polyethylene, Nitride, Polyethylene, Parallel Alignment, Density, Heat Resistance, Thermal Dissipation, Service Time, Randomly Distributed, Lamellae, High Temperature, Reinforced, Vol%, Pearl, Thermomechanical Properties, External Force, Clamshell, Shell Structures, Sem Images, Service Temperature, Thermally Conductive, Softening Temperature, Conductive, Rotational, Shells (Structures), X Ray Diffraction, Scanning Electron Microscopy, Thermomechanical Property
    Description
    • <p>Inspired by the clam-shell structure of pearls, we fabricated thermally conductive high-density polyethylene (HDPE) reinforced by a 2D filler, boron nitride (BN). SEM images showed only lamellae randomly distributed in unshared HDPE samples, whereas a shish-kebab structure was introduced by utilizing an in-house designed rotational shear system. XRD results indicate the BN (002) plane is parallel to the sheared direction. Due to the interconnected shish-kebab structure and aligned BN (002) plane, the Vicat softening temperature was increased from 82.8 °C to 107.9 °C, demonstrating excellent heat resistance under high temperatures. An optimal thermal conductivity of 1.26 W/mK was found at 35 vol% BN loading with a tensile strength of 40 MPa. This work has utilized external force to manufacture HDPE/BN composites with effective thermal dissipation and higher service temperature. The excellent thermo-mechanical properties mean a longer service time and less replaced frequency of material under extreme operating conditions.</p>
    • Inspired by the clam-shell structure of pearls, we fabricated thermally conductive high-density polyethylene (HDPE) reinforced by a 2D filler, boron nitride (BN). SEM images showed only lamellae randomly distributed in unshared HDPE samples, whereas a shish-kebab structure was introduced by utilizing an in-house designed rotational shear system. XRD results indicate the BN (002) plane is parallel to the sheared direction. Due to the interconnected shish-kebab structure and aligned BN (002) plane, the Vicat softening temperature was increased from 82.8 °C to 107.9 °C, demonstrating excellent heat resistance under high temperatures. An optimal thermal conductivity of 1.26 W/mK was found at 35 vol% BN loading with a tensile strength of 40 MPa. This work has utilized external force to manufacture HDPE/BN composites with effective thermal dissipation and higher service temperature. The excellent thermo-mechanical properties mean a longer service time and less replaced frequency of material under extreme operating conditions.
    Related URLs
    • https://scholarsphere.psu.edu/resources/9b674ced-72a4-454f-8946-68d6b7d73d06
  • Updated
  • Updated
  • Updated Creator Bin Chen
  • Updated Creator Jiawei Gong
  • Updated Creator Wei Huang
  • Updated Creator Ning Gao
  • Updated Creator Cong Deng
  • Updated Creator Xueqin Gao
  • Added 1-s2.0-S1359836823002020-main.pdf
  • Deleted 1-s2.0-S0266353810000035-main.pdf
  • Deleted 1-s2.0-S1359836823002020-main.pdf
  • Added 1-s2.0-S1359836823002020-main.pdf
  • Published
  • Updated
  • Updated Related URLs Show Changes
    Related URLs
    • https://scholarsphere.psu.edu/resources/9b674ced-72a4-454f-8946-68d6b7d73d06